I can't generate images directly, but I can build an SVG scene instead — that's a real way to create a picture. I'm planning an SVG depicting a black hole pulling in the planets against a dark starry backdrop. Writing SVG code... The sun streams into the accretion disk, and I'm arranging planets along a spiral path toward the black hole, each distorted and trailing motion streaks with scattered debris. Now I'm planning out the filters and gradients needed: glow effects at varying blur strengths, plus radial gradients for the background and the accretion disk itself. Working out the disk gradient stops... I'm also planning gradients for the sun, planets, and accretion stream, plus the photon ring glow and the lensed halo ring that mimics Gargantua's signature vertical band above and below the shadow. For the spaghettified sun, I'm shaping it as an elongated ellipse stretched toward the black hole, connected by a tapering glowing stream path that narrows from the sun's edge down into the disk, giving that classic tidal-stretching look. Good, since the clip path uses the user coordinate system it'll rotate along with the group, so I can define it simply in untransformed coordinates. Working out the rotation math, applying -12° to the disk's edges shifts the left side down to around (397, 469) and lifts the right side up correspondingly, so the streams from planets need to approach along this tilted plane rather than a flat horizontal line. Actually, I'll settle on rotate(-10) instead, putting the left edge around (397, 457), which lets the Sun sitting upper-left flow its stream down naturally into the disk while the planets spiral in from around it. Now I'm setting up the canvas at 1200x800 with the black hole centered at (720, 400), a 110px event horizon, and an accretion disk shaped as a wide ellipse with a gradient defining the inner gap just outside the horizon. I'm working out the layering: an outer soft glow, then the back half of the disk visible above the hole, then the black hole itself covering the near part, with the front half of the disk drawn on top and clipped so it passes in front of the horizon convincingly. Adding the halo ellipse with fading gradient, a pure black horizon with subtle edge, and layering the front disk half on top with a Doppler brightening overlay on the left side. Now I'm planning to hand-place star coordinates for the background. Still plotting star coordinates... Still plotting coordinate points... That gives about 70 stars, so I'll add 3 brighter ones with a glow filter for sparkle. Now I'm thinking through the planet composition—considering a spiral trajectory of planets ordered by distance from the black hole, versus placing the Sun at left-center with a plasma stream flowing toward the disk. I'm sketching relative sizes: black hole radius 110, Jupiter 38, Saturn 32 with rings, Neptune 18, Uranus 19, Earth 12, Venus 11, Mars 8, Mercury 6, and the Sun stretched to 95x55 for the plasma effect. I'm mapping out a curved path from lower-left toward the disk's front edge for Neptune, Uranus, and the other planets to follow. Working out precise coordinates... Adding gradient fill and glow filter... I'll skip sunspots and prominence loops for simplicity, then move to planets with tapered gradient trails fading behind each circle. Working out planet positions and colors... 4. Jupiter: elongated ellipse with warm bands, stretched toward the hole, with a small debris streamer connecting toward the disk. I'm checking the distance from Jupiter to the black hole to make sure the gap between its edge and the event horizon looks physically reasonable, about 26 units. I'm working out whether Jupiter should be positioned in front of or behind the accretion disk at that point, calculating the disk's vertical extent at Jupiter's x-position to see if the planet overlaps the disk's front edge. Since it looks cluttered, I'll reposition Jupiter to (555, 540) with a smaller size and different rotation, checking that it's still a reasonable distance from center. I'll also reconsider whether to draw a streamer connecting Jupiter to the disk, since a straight line would cut across the disk's front edge awkwardly. Now I'm placing Earth with its moon and a trail pointing away from the hole's direction, then positioning Venus similarly with its own trail heading outward. For Mars, I'm calculating a slight elongation toward the hole using an angled ellipse, then working out Mercury's distance to determine its own trail direction. I'm also considering adding an asteroid belt of tiny scattered gray dots between Mars and Jupiter, and possibly a small distant Pluto with its own trail, before figuring out how to render the trails as tapered shapes. For the trails, I'm weighing options: triangles with per-trail gradients versus simpler stroked lines with opacity fade, since each trail's direction differs and a shared gradient definition won't work cleanly across all of them. Leaning toward triangular paths with a blur filter for a softer tapered look. Computing trail triangle coordinates for Neptune and Uranus... Continuing the vector calculations for Jupiter and starting Earth's pointer geometry... Still computing arrow coordinates... Since Mercury would be hidden behind the hole if drawn first, I should render the planets group after the black hole group, ending each streamer right at the horizon edge rather than the center. I'm computing Mercury's streamer endpoint at (628, 336) using the direction vector from center, and now working out the equivalent horizon endpoint for Mars's streamer. Recomputing Mercury's position after the -10 degree rotation, it actually lands just above the disk, right around the lensing halo ring, so it reads as crossing that glow. Now I'm sketching the black hole group itself, starting with an outer diffuse glow ellipse using a radial gradient and blur filter. Adding the visible disk and lensing halo ring... Working out the gradient stop fractions... That should render a soft fading ring. Now I'm layering the shadow circle, photon ring, and clipping the front half of the accretion disk with a brightening effect on the left side for the doppler shift. Now I'm working out the dimming gradient for the right side and adding a few faint elliptical streaks over the disk to suggest turbulent texture. Confirming that userSpaceOnUse means the clip rect gets rotated along with the group's coordinate system, so the unrotated rect will follow the rotation properly. Now I'm defining the disk's radial gradient stops, building a warm glow from transparent center through cream, gold, and orange tones toward the edge. Adding the Doppler beaming gradient — a horizontal fade from bright white-hot on the approaching side to darkened on the receding side. I'm also adding a soft glowing hot spot near where the accretion stream hits the disk's edge, using a blurred pale ellipse to suggest impact heating. I'm verifying the coordinate transform so the hot spot lines up correctly between the rotated disk group and the global stream endpoint. I'll keep the background mostly dark and empty, maybe with just a whisper of faint bluish-violet haze for depth rather than anything distracting. For Saturn's rings, I'm working out the layering: draw the full ring stroke first, then the planet circle on top, then clip and redraw the front half of the ring over the planet to create the illusion of it passing in front. Adding ring gravitational lensing... Adding Jupiter's bands and Great Red Spot within a clipPath, then using a radial gradient for spherical shading, before starting on Earth with its own radial gradient for oceans and land. Adding Earth's continents and moon, then defining color gradients for the remaining planets—Neptune, Uranus, Mars, Venus, and Mercury—and setting up an asteroid belt with small gray circles arranged along an arc between Mars and Jupiter. I'm sketching out a scattered field of about seventeen small asteroids with varying sizes across the right side of the scene, making sure to keep them clear of the Sun's stream region and checking that a few near Venus still read as distinct small bodies. They'd actually read fine as dark debris silhouettes against the bright disk, so I'll just limit overlap by clustering asteroids into an upper-left group near the inner planets and a lower-left group near Saturn/Jupiter, picking out specific coordinates and sizes for each cluster. I'm also thinking of adding a couple of small comet-like streaks near the hole, bright heads with tails pointing outward, to give some sense of motion, while skipping extras like a lensing ring or a caption since they aren't needed. Now I'm setting up the blur and glow filters needed for the various layers. With those defined, I'm thinking through the sun's corona effect: layering a wide soft glow ellipse behind a tighter, more intense one to build depth around the sun body. Now I'm working out the draw order carefully -- stars, black hole, then the accretion stream feeding toward the sun, the sun disk itself, then planets on top. Since the stream's hot end needs to sit visually near the disk's edge but be drawn independently, I'm planning to place that hot spot as its own separate element positioned after the stream in the draw order, rather than nesting it inside either group. I'm now defining the sun's teardrop shape so its tail points toward the black hole, calculating the angle between the sun's center and the disk edge to orient the shape, then working out the local coordinate frame before rotating it into place. Calculating the tip position confirms the rotation matches the stream's 35° direction toward the hot spot. Now I'm plotting the stream path itself, narrowing from width 30 near the sun to width 8 near the disk edge, with a gentle curve for a natural flow. Adding gradient fill and glow effects... Still shaping the sagging stream... I'll add a couple faint wisps peeling off the sun's top toward the disk to suggest spaghettification, then define the sun's gradient with warm cream, gold, and orange stops, and think through how the disk and sun both cast light on the planets. For Jupiter, I'm working out the local rotated frame, its clipping ellipse, and layering horizontal bands of tan and cream tones plus a small red spot to suggest its atmosphere. Now I'm setting up a radial gradient to simulate spherical shading, offsetting the highlight center and darkening toward the edges, then adding a generic reusable "shade" gradient for rim darkening across the planets. For Saturn, I'm building a tilted group with a gradient-filled sphere body, layered band rectangles, and elliptical ring strokes with an outer band, a darker gap ring, and adjusted radii to give a layered ring effect. Then I'll re-draw the front half of the rings clipped to a rectangle so they pass in front of the planet body correctly, with a shading overlay on top for depth. For Earth, I'm setting up a radial gradient sphere with ocean blue tones and clipping continent-shaped ellipses onto the circle to represent landmasses. Now I'm sketching Neptune and Uranus with similar radial gradients—blue-purple tones for Neptune and cyan-teal for Uranus—plus a faint elliptical ring for Uranus and shading overlays for volume. Adding Pluto's shade and then working out tidal-stripping streamer effects trailing off Mercury, using tapered glowing lines to suggest debris being pulled away. Still writing streamer geometry... Now I'm adding small comet debris near the hole — a comet head with a tapered tail pointing outward along the direction vector from the hole's center, calculating the endpoint by scaling that normalized direction. Making the three brightest stars sparkle with small cross-shaped rays, then adding a dark vignette gradient behind everything so the center reads as deep space black. I'm also considering whether to add subtle lensing arcs of stretched stars around the hole for extra realism. Calculating arc coordinates for lensing effect... Continuing to compute the arc endpoints at each angle pair, checking that the resulting positions sit above the tilted disk as expected before moving to the next segment. That arc segment overlaps Jupiter's position, so I need to pick different angle range to avoid the collision—trying 95° to 108° instead. I should draw these lensed star arcs before the black hole's glow layer so the hole overlays correctly, since the arcs are background elements outside the disk. I'm also checking whether the accretion disk's gradient transparency at the center creates gaps near the hole edge that need covering, particularly at the sides. The halo ring drawn over the disk's back half is fine as lensed light, but I need to verify how it interacts with the front half — since the front half only extends to y=480 while the halo ring spans further down, part of the halo will remain visible below the disk edge. Checking the clip rects for the front and back disk halves confirms they properly bound the texture ellipses to their respective regions. Adding texture ellipses... Calculating the gradient stops for the halo stroke, mapping fractional positions to color-opacity transitions from warm white through orange to transparent, then planning a blur filter to soften the edge before the shadow circle layers on top. Next I'm adding a bright photon ring circle with a subtle glow, plus a hot spot ellipse near the disk's left tip. I'm reconsidering the draw order though, since the accretion stream drawn afterward would dim the hot spot's brightness — so I might need to move the hole group after the stream instead. Working out the layering: stars, lens arcs, then the Sun's corona glow before the disk elements, checking that none of these overlap unexpectedly given their coordinates and radii. I'm reasoning that drawing the accretion stream after the hole group and before the Sun keeps continuity, since the Sun's tapering tip will be drawn last and hide the stream's base where it originates. I'm also planning to add a couple of curved wisp filaments splitting off near the disk to give a spaghettified stretching look, sketching out the path coordinates for the first wisp curve. Writing SVG code... Adding accretion disk color gradients... Adding sun and light-stream gradients... Adding more planet gradients... Adding more planet gradients... Adding blur filters for glow effects... Adding more clip paths for the moons and rings, then I realize a potential issue: the blur filter's percentage-based region depends on the element's bounding box, so a perfectly horizontal or vertical line with zero-height bbox would end up with a zero-area filter region and vanish entirely, while diagonal lines wouldn't have this problem. Since my streamers are diagonal, I'm safe, but I'll switch them to polygons anyway for reliability, keeping the horizontal/vertical sparkle lines unfiltered. Now I'm starting the actual SVG body -- background rect, star field, and sparkle accents on the brighter stars. Placing sparkle crosses at each bright star, then starting the lensed starlight arcs beneath the star layer... Adding curved arc segments and double-checking the sweep-flag direction so each arc bends the right way around the lensing center. Now I'm building the sun stream group with a rotated glow path and gradient-filled body to give it a warm, curving light-ray effect. I recalculate the core centerline to sit between the stream's upper and lower edges, then start setting up the black hole group with a rotated ellipse for the accretion disk glow. Adding disk ring details... Adding the photon ring glow, then clipping the front half of the accretion disk with gradient and doppler shading, plus a brighter hot spot ellipse... I realize the Doppler overlay is only applied to the front half, making it asymmetric compared to the back half — I should apply it to the full disk first for consistency, then again over the front group. I also need to watch out for the white haze bleeding beyond the disk's transparent outer edge where the gradient fraction exceeds 1. I'll finalize the gradient stops so the bright beaming highlight sits near the left edge of the disk while the far side fades into near-invisible black against the background, then move on to building the Sun with layered blurred ellipses for a glowing orange effect. For the sun's core, I'm using an offset outer glow with a lens-flare-style path to give it that flaring, elongated look, plus a couple of darker sunspot ellipses placed asymmetrically for texture. Adding surface streaks... Adding planet trail paths... Adding orbit trail markers... Now I'm setting up Uranus with a tilted ring drawn behind the planet body, though I realize this creates two visible arc segments poking out top and bottom where the ring isn't covered by the sphere. Moving to Saturn, I'm layering two concentric ring ellipses in different tones behind a shaded spherical body, then adding a clipped overlay to show part of the ring passing in front. Confirming the clip paths reference coordinates correctly within the rotated frame, then moving on to building Jupiter's rings with a similar rotated group structure. Adding the swirl highlight and stripped atmosphere streak, then reasoning through the rotation angle so the elongated shape points in the right direction after the -40 degree transform. Now I'm building Earth with a soft outer glow, gradient sphere, and clipping the green landmass shapes to fit inside the circle. Adding Venus with its glow shading, then rotating Mars with a tilted ellipse body and a soft reddish streak for its faint moon trail, and starting Mercury's rotated group next. Adding a scattered asteroid belt, then two comets with faint tails and bright nuclei, positioning their tails to point away from the black hole consistent with them falling toward it. Now I'm checking whether the Sun's corona glow overlaps with Earth's position, working through the rotated ellipse geometry to see if the edge reaches close to Earth's coordinates. Doing the math confirms the corona stays just outside Earth's spot, though the blur radius might extend faintly into that area, which seems fine. Then I verify the asteroid stream doesn't collide with anything else, and check Saturn's ring extent against its trail direction to make sure the trail sits properly behind the planet without overlap. Now checking Jupiter's position relative to the disk edge — the math shows Jupiter sits just below the disk's lower boundary there, so the streamer crossing over that region is fine since it's layered on top. I also want to verify Neptune's trail doesn't overlap with any nearby star positions. I'm nudging a star near Uranus that felt too close to its edge, relocating it to (330,700) where it clears both Uranus's position and its trail. I'm also checking whether a star near Saturn's rings at (330,540) conflicts with the ring's rotated extent, which stretches leftward to around x=368. Continuing through the remaining stars — checking placements near Jupiter's trail, the comet, Pluto's trail, and Mars's trail — most sit far enough away to leave alone. I'm nudging a couple that overlap trail tips: the star at (570,130) sits right on Mars's trail tip so I'm shifting it to (540,110), and checking (500,160) against Venus's trail, which turns out fine. Then I'm scanning the right-side stars near the disk's tip and the lens arcs near Mercury for any remaining overlaps. The Mercury arc endpoint clears its trail with enough margin, but one arc between 249° and 226° cuts right through the Mars streamer, so I'm recalculating that arc's angles to run from 250° to 262° instead, giving new coordinates that route it clear of the streamer. Checking the disk's Doppler highlight placement in group coordinates, it lands near Jupiter's hot spot without conflict. I'm also verifying that the blurred halo ring's inward bleed gets covered by the shadow circle drawn on top, and that the photon ring's glow only slightly overlaps the shadow edge. The front half's inner transparent ellipse near the hole reveals black beneath, then fades into a bright thin arc crossing the hole's lower half—matching the Interstellar-style look. Combining opacity and filter on the same element should be fine, so I'm now checking whether the trail blur group causes any layering issues. Skipping a gravitational shadow vignette and text overlay as unnecessary, I'm instead verifying the Sun's stream connection—checking whether the stream's half-width at its junction point is wider than the actual body edge there, which could cause the stream to visually poke outside the Sun's silhouette. Still calculating curve points... I realize the mismatch means I need continuity between the sun's tip and the stream rather than a point tapering into a wider tube. I'm redesigning so the body ends in a narrow "neck" that matches the stream's starting width, creating a smooth spaghettification effect. I'm checking the color mismatch between the sun's orange edge and the stream's yellow start, deciding to shift the stream's initial color to a warmer amber for better blending, plus keeping a bright core line for continuity. Now I'm sketching the wisps trailing off the body's upper surface as smooth curves extending toward the stream. I'm converting local coordinates to global canvas positions to verify the sun, stream end, and hot spot all line up correctly. Checking that the black hole's shadow radius plus disk width fits proportionally within the 1200px canvas to read as appropriately massive, then reconsidering how the Doppler darkening overlay should shade the receding side of the disk. For the halo gradient stroke, I'm switching to userSpaceOnUse coordinates with explicit radius and stop offsets to avoid ambiguity around how browsers compute bounding boxes for stroked gradients. I'm working out where the shading should fall on each planet based on which direction light comes from — since some planets sit near the black hole/disk (upper-right) while others are lit more from the lower-right or by the Sun itself. I decide to add a second shade gradient variant for planets whose lighting angle differs, so the highlights and dark rims feel physically consistent across the scene. I also want a subtle warm rim-light glow on the hole-facing edges of the biggest planets, Jupiter and Saturn, to reflect the disk's orange glow — adding a dedicated radial gradient just for that highlight. I check that the rotation angles for these bodies actually orient the highlight toward the hole's direction, and confirm the trail group and outer glow blur filters don't need any transform adjustments. The star field circles are fine as-is. I settle on the accretion disk color progression from hot white core through yellow, orange, red to dark edges for realism, and decide to skip adding a jet since it's not requested. I finalize the black hole group's coordinates centered at (720,400), then start writing the complete SVG markup along with a brief explanation of how to view it and an alternative AI image prompt. Writing SVG code... Adding the doppler shift gradient... Adding sun glow gradients... Adding more shading gradients and rim lighting effects... Placing more asteroids... Working out the interior span of Jupiter's trail triangle at x=480, the asteroid there sits just above it, which is fine since it's meant as scattered debris. Checking that Mars and Venus trails land at their intended endpoints, and reviewing the overall color balance of the dark background, orange-white disk, and yellow-orange sun with its stream — it's looking cohesive. I'm considering whether to add a faint orange cast near the disk, but the outer glow already handles that. Now I'm scattering individual star points across the background with varying sizes and opacities. Scattering more star points across the sky... Adding more scattered star points... Scattering more star points across the sky... Placing more scattered stars... Everything looks set now, so I'll finalize the artwork, note that colors can be tweaked, and add a short alternative text prompt suitable for Midjourney or DALL·E. I can't generate raster images (like PNG/JPG) directly, but I can create a real picture in SVG form. Save the code below as `black-hole.svg` and open it in any web browser to view it. ```svg ``` **What's in the picture:** - A large black hole (event horizon + bright photon ring) dominating the right-center, with a tilted white-hot-to-deep-red accretion disk wrapping around it, a gravitational-lensing halo, and a few lensed starlight arcs. - The Sun on the left, stretched into a teardrop with a glowing plasma stream ("spaghettification") pouring into the disk, flaring white where it hits. - Mercury and Mars already elongated and trailing hot gas into the hole; Venus, Earth (with Moon) and the asteroid belt spiraling in from above; Jupiter, Saturn (rings intact for now), Uranus, Neptune and Pluto sweeping in from the lower left with motion trails. - A very dark, near-black starfield background with only a faint indigo glow near the center. If you'd rather have a photorealistic version from an AI image generator (Midjourney, DALL·E, Stable Diffusion, etc.), here's a prompt you can paste: > A colossal black hole devouring the solar system, glowing orange-white accretion disk with gravitational lensing, the Sun stretched into a spiral of plasma being pulled in, planets Jupiter, Saturn, Earth, Mars spiraling toward the event horizon with debris trails, very dark deep-space background with sparse stars, cinematic, ultra-detailed, dramatic lighting, 16:9

Imagine a situation where there is a big disastrous thing ha...